Legal claims defining the scope of protection. Each claim is shown in both the original legal language and a plain English translation.
1. A health monitoring system for monitoring a health status of one or more passengers on a passenger vehicle, the health monitoring system comprising: (a) an onboard management system including: a computing device having a computer processor, memory, a display monitor, system software, and a health monitoring application; and a vehicle communication module configured to communicate with a remote telemedical monitoring system via a communication network; and (b) an imaging device in communication with the onboard management system, the imaging device configured to capture images of the one or more passengers on the vehicle and transmit the images to the onboard management system; wherein the health monitoring system is configured such that: (1) the imaging device captures images of the one or more passengers; (2) the imaging device transmits the images to the onboard management system; and (3) the onboard management system analyzes the images and determines health data regarding the one or more passengers using a health monitoring application and alerts a crew member and at least one of the one or more passengers of an action to take to manage the health status, wherein the health monitoring system is further configured to generate a waiting list used for at least one of an analysis of the images or an alert to the crew member and the at least one of the one or more passengers by assigning priority positions of the one or more passengers in the waiting list based on at least one of an importance of the one or more passengers, a severity of health conditions, or a severity of contagiousness of health conditions.
A health monitoring system is designed to track the health status of passengers on a vehicle, such as an aircraft, bus, or train. The system addresses the challenge of detecting and managing passenger health issues in real-time, ensuring timely medical intervention and minimizing risks to other passengers. The system includes an onboard management system with a computing device, software, and a communication module that connects to a remote telemedical monitoring system. An imaging device captures images of passengers and transmits them to the onboard management system for analysis. The system processes these images to extract health data, such as detecting symptoms of illness or distress, and generates alerts for crew members and affected passengers. The system prioritizes responses by creating a waiting list based on factors like passenger importance, severity of health conditions, or contagiousness, ensuring efficient resource allocation. This approach enhances situational awareness and enables proactive health management in transit environments.
2. The health monitoring system of claim 1 , wherein the onboard management system transmits one or more of (i) the images and (ii) the health data through the health monitoring application to a remote telemedical monitoring system; and (iii) the onboard management system receives from the telemedical monitoring system via the communication network medical information regarding the one or more passengers based on an analysis by the telemedical monitoring system of the one or more of (i) the images and (ii) the health data.
The invention relates to a health monitoring system for vehicles, particularly for monitoring the health of passengers during travel. The system addresses the challenge of providing real-time health monitoring and medical support to passengers in transit, such as in aircraft, trains, or other vehicles, where immediate medical attention may not be readily available. The system includes an onboard management system that captures images and health data from passengers using sensors or cameras. The onboard management system processes this data to detect potential health issues, such as abnormal vital signs or distress signals. The system then transmits the images and health data to a remote telemedical monitoring system via a communication network. The telemedical monitoring system analyzes the received data and provides medical information or recommendations back to the onboard management system. This information can include diagnostic insights, treatment suggestions, or alerts for further action. The onboard system then relays this medical information to the vehicle's crew or directly to the passengers, enabling timely medical intervention. The system enhances passenger safety by integrating remote medical expertise with onboard monitoring, ensuring that health concerns are addressed promptly even in environments where direct medical assistance is limited.
3. The health monitoring system of claim 1 , wherein the onboard management system receives from the telemedical monitoring system, via the communication network, medical information regarding the one or more passengers based on an analysis of the images by the telemedical system to determine health data and an analysis of the health data by the telemedical system to determine medical information.
A health monitoring system for vehicles integrates an onboard management system with a telemedical monitoring system to remotely assess passenger health. The system captures images of passengers using onboard cameras, which are then transmitted via a communication network to the telemedical system. The telemedical system analyzes these images to extract health data, such as vital signs or physical conditions, and further processes this data to derive medical information, such as potential health risks or medical diagnoses. The onboard management system receives this medical information from the telemedical system and may use it to alert passengers, notify emergency services, or adjust vehicle operations. The system enables real-time, remote health monitoring of passengers without requiring direct interaction, improving safety and response times in transportation environments. The telemedical system may employ machine learning or other analytical techniques to interpret the image data and generate actionable medical insights. This approach enhances situational awareness for both passengers and medical professionals, facilitating timely interventions when necessary.
4. The health monitoring system of claim 1 , wherein the passenger vehicle is an airplane and the onboard management system is a sub-system of an in-flight entertainment system installed on the airplane.
This invention relates to a health monitoring system for passengers in a vehicle, specifically an airplane, where the system integrates with an in-flight entertainment (IFE) system. The system is designed to address the challenge of monitoring passenger health during flights, particularly in situations where medical emergencies or health-related incidents may occur. The health monitoring system collects biometric data from passengers, such as heart rate, blood pressure, or oxygen levels, using wearable or embedded sensors. This data is transmitted to an onboard management system, which in this case is a subsystem of the airplane's in-flight entertainment system. The onboard management system processes the biometric data to detect potential health issues, such as abnormal vital signs or distress signals. Upon detecting a health concern, the system can alert flight crew or medical personnel, ensuring timely intervention. The integration with the IFE system allows for seamless data collection and processing without requiring additional standalone hardware, leveraging existing onboard infrastructure. This approach enhances passenger safety by providing real-time health monitoring while minimizing additional weight and complexity in the aircraft. The system may also include features like passenger identification and location tracking within the cabin to facilitate rapid response in emergencies.
5. The health monitoring system of claim 4 , wherein the in-flight entertainment system comprises an in-seat display system and the imaging device is integrated into the in-seat display system.
The health monitoring system is designed for use in aircraft to monitor the health of passengers during flight. The system addresses the challenge of detecting and responding to medical emergencies in a confined, high-altitude environment where immediate medical assistance may be limited. The system includes an in-flight entertainment system with an integrated imaging device, such as a camera, to capture visual data of passengers. This imaging device is embedded within the in-seat display system, allowing for discreet and continuous monitoring without requiring additional hardware. The system processes the captured visual data to detect signs of distress, such as changes in skin color, facial expressions, or body movements, which may indicate a medical emergency. Upon detecting such signs, the system alerts cabin crew or medical personnel, enabling a rapid response. The integration of the imaging device into the in-seat display ensures minimal disruption to the passenger experience while maintaining privacy and compliance with regulations. The system may also include additional sensors, such as heart rate or oxygen saturation monitors, to provide a comprehensive health assessment. By leveraging existing in-flight entertainment infrastructure, the system offers a cost-effective and scalable solution for enhancing passenger safety during air travel.
6. The health monitoring system of claim 1 , wherein the health data comprises vital information of the one or more passengers selected from the group consisting of: pulse rate; respiration rate; and body temperature.
A health monitoring system is designed to track the well-being of passengers, particularly in environments where continuous monitoring is critical, such as transportation or medical settings. The system collects health data from one or more passengers, focusing on vital signs that indicate physiological status. Specifically, the system measures pulse rate, respiration rate, and body temperature, which are key indicators of a passenger's health. These metrics help detect abnormalities or distress early, allowing for timely intervention. The system may integrate sensors or wearable devices to capture this data, ensuring real-time or periodic monitoring. By analyzing these vital signs, the system can assess passenger health, identify potential medical issues, and alert caregivers or medical personnel if necessary. This approach enhances safety and responsiveness in environments where passenger health is a priority.
7. The health monitoring system of claim 1 , wherein the images comprise one of live streaming video and individual images captured and transmitted on-demand.
A health monitoring system captures and processes images of a patient for remote monitoring. The system includes a camera device that acquires images, which may be live streaming video or individual images captured and transmitted on-demand. The images are analyzed to detect health-related conditions, such as vital signs, physical abnormalities, or behavioral changes. The system may also include sensors to gather additional physiological data, such as heart rate or temperature, which is combined with the image data for comprehensive monitoring. The processed data is transmitted to a remote monitoring station, where healthcare professionals can review the information in real-time or at scheduled intervals. The system may also include alerts to notify caregivers of critical conditions detected in the patient. The camera device is designed to be portable or wearable, allowing for continuous or periodic monitoring in various environments, including home or clinical settings. The system improves patient care by enabling early detection of health issues and reducing the need for in-person visits.
8. The health monitoring system of claim 1 , wherein the medical information comprises a health condition of the one or more passengers from a medical diagnosis based on the health data selected from the group consisting of: a disease; a sickness; a psychological condition; and a state of consciousness.
This invention relates to a health monitoring system designed to track and analyze the health conditions of passengers, particularly in transportation or enclosed environments. The system addresses the challenge of detecting and diagnosing health issues in real-time to ensure passenger safety and well-being. The system collects health data from one or more passengers, which may include physiological measurements, behavioral indicators, or other relevant inputs. This data is processed to generate medical information, specifically identifying health conditions such as diseases, sicknesses, psychological conditions, or states of consciousness. The system may use diagnostic algorithms or machine learning models to interpret the health data and provide accurate medical assessments. By continuously monitoring and diagnosing health conditions, the system can alert caregivers, medical personnel, or automated systems to take appropriate actions, such as administering treatment or adjusting environmental conditions. The invention enhances situational awareness and response capabilities in environments where passenger health is critical, such as in vehicles, aircraft, or healthcare facilities. The system may integrate with existing monitoring devices or sensors to gather comprehensive health data, ensuring timely and reliable health condition detection.
9. The health monitoring system of claim 1 , wherein the onboard management system further comprises a video-audio device, and the health monitoring system is further configured to enable live video chat between the video-audio device and a remotely located medical caregiver using the telemedical monitoring system.
A health monitoring system is designed to track and manage the health status of individuals, particularly in remote or isolated settings. The system includes an onboard management system that collects and processes health data from various sensors or devices. To enhance remote medical support, the onboard management system integrates a video-audio device, enabling real-time communication between the individual and a remotely located medical caregiver. This live video chat functionality allows for direct interaction, assessment, and guidance from healthcare professionals, improving the accuracy and timeliness of medical interventions. The system ensures seamless connectivity and data exchange, facilitating efficient telemedical monitoring and care delivery. By combining health data monitoring with live video communication, the system addresses challenges in remote healthcare access, ensuring timely medical support and reducing the need for physical visits. The integration of video-audio capabilities enhances the system's ability to provide comprehensive, real-time medical assistance, improving patient outcomes and operational efficiency in healthcare delivery.
10. A health monitoring system for monitoring a health status of one or more passengers on a passenger vehicle, the health monitoring system comprising: (a) a portable telemedical device including: a computing device having a computer processor, memory, a display monitor, system software, and a health monitoring application; and a communication module configured to communicate via a communication network with a remote telemedical monitoring system; and (b) an imaging device configured to capture images of the one or more passengers on the vehicle; wherein the health monitoring system is configured such that: (1) the imaging device captures images of the one or more passengers; and a health monitoring application is configured to analyze image data of the one or more passenger and determines health data regarding the one or more passengers and alerts at least one crew member and at least one of the one or more passengers a priority position of the health status regarding the one or more passengers, wherein the health monitoring system is further configured to generate a waiting list used for at least one of an analysis of the images or an alert to the crew member and the at least one of the one or more passengers by assigning priority positions of the one or more passengers in the waiting list based on at least one of an importance of the one or more passengers, a severity of health conditions, or a severity of contagiousness of health conditions.
A health monitoring system is designed to monitor the health status of passengers on a vehicle, such as an aircraft, bus, or train. The system addresses the challenge of detecting and prioritizing health issues among passengers in real-time, ensuring timely medical intervention and resource allocation. The system includes a portable telemedical device equipped with a computing device, a display monitor, and a health monitoring application. The computing device processes health data and communicates with a remote telemedical monitoring system via a communication module. An imaging device captures images of passengers, which the health monitoring application analyzes to determine health conditions. The system generates alerts for crew members and affected passengers, indicating the priority of their health status. Additionally, the system creates a waiting list that prioritizes passengers based on factors such as their importance, the severity of their health conditions, or the contagiousness of their illnesses. This prioritization helps streamline medical response and resource management, particularly in environments where multiple passengers may require attention simultaneously. The system enhances safety and efficiency in passenger health monitoring by integrating automated analysis and prioritization.
11. The health monitoring system of claim 10 , wherein the health monitoring system is configured such that: (1) the images are analyzed locally by a telemedical device to determine health data; and (2) the telemedical device transmits the health data to the telemedical monitoring system; and (3) a portable telemedical device transmits one or more of (i) the images and (ii) health data determined by analyzing the images, to a remote telemedical monitoring system via the communication network using the communication module; and (3) the portable telemedical device receives from the telemedical monitoring system via the communication network medical information regarding the passenger based on an analysis by the telemedical monitoring system of the one or more of (i) the images and (ii) the health data.
This invention relates to a health monitoring system for passengers, particularly in transportation environments like aircraft, where real-time health data collection and analysis are critical. The system addresses the challenge of remotely monitoring passenger health by integrating portable telemedical devices with a centralized telemedical monitoring system. The portable device captures images (e.g., medical or diagnostic images) and processes them locally to extract health data, such as vital signs or medical conditions. The device then transmits this data, or the raw images, to a remote monitoring system via a communication network. The remote system analyzes the received data or images and sends back medical information, such as diagnostic results or treatment recommendations, to the portable device. This two-way communication ensures timely medical intervention while minimizing the need for physical examination. The system enhances situational awareness for medical personnel and improves passenger safety by enabling remote diagnostics and monitoring. The portable device may also store or relay data to other systems, ensuring comprehensive health tracking. The invention is particularly useful in environments where immediate medical attention is limited, such as during long flights or in remote locations.
12. The health monitoring system of claim 11 , further comprising an onboard management system, and wherein the health monitoring system is configured such that the telemedical device communicates with the telemedical monitoring system via the onboard management system.
A health monitoring system is designed to track and manage the health status of individuals, particularly in environments where remote or continuous monitoring is required. The system addresses challenges in real-time health data collection, secure transmission, and integration with existing medical infrastructure. The system includes a telemedical device that collects health data from a user, such as vital signs, biometric measurements, or physiological parameters. This data is transmitted to a telemedical monitoring system, which processes and analyzes the information to provide insights, alerts, or recommendations. The system also includes an onboard management system that facilitates communication between the telemedical device and the telemedical monitoring system. This ensures seamless data transfer, reduces latency, and enhances system reliability. The onboard management system may handle data routing, encryption, or protocol conversion to ensure compatibility and security. The integration of these components enables efficient health monitoring, remote diagnostics, and timely intervention when necessary. The system is particularly useful in applications such as telemedicine, remote patient monitoring, or wearable health devices.
13. The health monitoring system of claim 10 , wherein a telemedical device transmits the images to the telemedical monitoring system, and the telemedical device receives from the telemedical monitoring system, via the communication network, medical information regarding the passenger based on an analysis of the images by the telemedical system to determine health data and an analysis of the health data by the telemedical system to determine medical information.
This invention relates to a health monitoring system for passengers, particularly in transportation environments like aircraft, where real-time medical assessment is critical. The system addresses the challenge of providing timely medical information to passengers in remote or confined settings where immediate access to healthcare professionals is limited. The system includes a telemedical device and a telemedical monitoring system connected via a communication network. The telemedical device captures images of a passenger, such as facial or bodily images, which are transmitted to the telemedical monitoring system. The monitoring system analyzes these images to extract health data, such as vital signs, skin conditions, or other physiological indicators. It then processes this health data to generate medical information, such as diagnostic insights or treatment recommendations. The telemedical device receives this medical information from the monitoring system, enabling on-site personnel or the passenger to take appropriate action. The system may also include a display for presenting the medical information to users, ensuring that critical health insights are accessible in real time. This approach enhances remote medical support, reducing response times and improving passenger safety in environments where traditional medical assistance is delayed or unavailable.
14. The health monitoring system of claim 10 , further comprising an onboard management system, and wherein the health monitoring system is configured such that a telemedical device transmits the images to the onboard management system, and the onboard management system analyzes the images to determine health data, the health data is transmitted to the health monitoring system, and the telemedical device receives from the telemedical monitoring system via the communication network medical information regarding the passenger based on an analysis of the health data by the telemedical system to determine medical information.
A health monitoring system for passengers, particularly in transportation environments, addresses the need for real-time health assessment and remote medical support. The system includes a telemedical device that captures images of a passenger, such as vital signs or medical conditions, and transmits these images to an onboard management system. The onboard system analyzes the images to extract health data, which is then sent to a central health monitoring system. The telemedical device receives medical information from the health monitoring system, which is derived from an analysis of the health data. This information may include diagnostic insights, treatment recommendations, or alerts for medical personnel. The system enables continuous health tracking and immediate medical intervention, improving passenger safety and well-being during travel. The onboard management system acts as an intermediary, processing data locally before transmitting it to the central system, ensuring efficient and secure health monitoring. The telemedical device facilitates two-way communication, allowing medical professionals to provide timely guidance based on the analyzed health data. This integrated approach enhances the responsiveness of medical support in transportation settings.
15. A method of monitoring a health status of one or more passengers on a passenger vehicle, the method comprising: an imaging device capturing images of a passenger on the vehicle; analyzing the images and determining health data based on the images using a health monitoring application; transmitting one or more of (i) the images and (ii) the health data determined by analyzing the images, to a remote telemedical monitoring system via a communication network; and receiving from the telemedical monitoring system medical information regarding the passenger based on an analysis by the telemedical monitoring system of the one or more of (a) the images and (b) the health data, wherein the analyzing further includes alerting a crew member and at least one of the one or more passengers of an action to take to manage the health status and generating a waiting list used for at least one of an analysis of the images or an alert to the crew member and the at least one of the one or more passengers by assigning priority positions of the one or more passengers in the waiting list based on at least one of an importance of the one or more passengers, a severity of health conditions, or a severity of contagiousness of health conditions.
This invention relates to a system for monitoring the health status of passengers on a vehicle, such as an aircraft, bus, or train. The system addresses the challenge of detecting and managing passenger health issues in real-time, particularly in environments where immediate medical attention may be limited. The method involves using an imaging device to capture images of passengers, which are then analyzed by a health monitoring application to extract health data. This data, along with the images, is transmitted to a remote telemedical monitoring system via a communication network. The telemedical system processes the information and sends back medical recommendations or alerts. The system also includes alerting crew members and passengers about necessary actions to manage health conditions. Additionally, it generates a waiting list to prioritize passengers based on factors such as their importance, the severity of their health conditions, or the contagiousness of their conditions. This prioritization helps streamline medical response and resource allocation. The system ensures timely intervention and improves passenger safety by integrating real-time health monitoring with remote medical expertise.
16. The method of claim 15 , wherein the one or more of (i) the images and (ii) the health data determined by analyzing the images, are transmitted to the telemedical monitoring system by an onboard management system, and the medical information is received from the telemedical monitoring system by the onboard management system.
This invention relates to a telemedical monitoring system for analyzing health data derived from images, particularly in a vehicle-based or onboard environment. The system addresses the challenge of remotely monitoring a patient's health by integrating image analysis and telemedicine capabilities within a vehicle's onboard management system. The onboard system captures or receives medical images, such as those from wearable or portable medical devices, and processes them to extract health data. This data, along with the original images, is transmitted to a remote telemedical monitoring system for further analysis by healthcare professionals. The telemedical system then sends medical information, such as diagnostic results or treatment recommendations, back to the onboard system. This bidirectional communication ensures real-time health monitoring and timely medical intervention, enhancing patient care in mobile or remote settings. The system may also include features like data encryption, user authentication, and integration with vehicle diagnostics to provide a comprehensive health and safety solution.
17. The method of claim 16 , wherein the onboard management system analyzes the images to determine the health data using a health monitoring application.
This invention relates to a system for monitoring the health of a vehicle or equipment using onboard imaging and analysis. The system captures images of components or systems within the vehicle or equipment, such as mechanical parts, electrical systems, or structural elements, using onboard cameras or sensors. These images are then processed by an onboard management system to assess the health or condition of the monitored components. The system includes a health monitoring application that analyzes the images to extract health data, such as wear, damage, or operational status. The health data is used to detect anomalies, predict maintenance needs, or trigger alerts for potential failures. The system may also compare the captured images to reference images or predefined thresholds to determine the health status. The onboard management system may further store the health data, generate reports, or transmit the data to a remote monitoring system for further analysis. The invention aims to improve maintenance efficiency, reduce downtime, and enhance safety by providing real-time or near-real-time health monitoring of critical components.
18. The method of claim 15 , wherein the onboard management system transmits the images to the telemedical monitoring system, and the telemedical monitoring system analyzes the images to determine health data using a health monitoring application.
This invention relates to a telemedical monitoring system for analyzing health data from onboard systems, particularly in remote or mobile environments. The system addresses the challenge of providing real-time health monitoring and diagnostics in situations where direct medical access is limited, such as in vehicles, aircraft, or other isolated settings. The method involves an onboard management system that captures and transmits images, such as medical or diagnostic images, to a telemedical monitoring system. The telemedical monitoring system processes these images using a health monitoring application to extract and analyze health data. This analysis may include detecting abnormalities, tracking vital signs, or assessing medical conditions based on the visual data. The system enables remote healthcare professionals to review the analyzed data, providing timely medical insights without requiring physical presence. The onboard management system may include sensors, cameras, or other imaging devices to collect the necessary data, while the telemedical monitoring system integrates advanced algorithms or machine learning models to interpret the images accurately. This approach enhances remote healthcare delivery, improves diagnostic accuracy, and supports proactive medical interventions in environments where traditional medical infrastructure is unavailable. The system is particularly useful for monitoring patients in transit, remote locations, or during emergencies where immediate medical attention is critical.
19. The method of claim 15 , wherein the one or more of (i) the images and (ii) the health data determined by analyzing the images, are transmitted to the telemedical monitoring system by a portable telemedical device, and the medical information is received from the telemedical monitoring system by the portable telemedical device.
This invention relates to a telemedical monitoring system for remote patient care, addressing the challenge of efficiently transmitting and analyzing medical data between portable devices and centralized monitoring systems. The system captures images and health data from a patient using a portable telemedical device, such as a smartphone or wearable sensor. The device processes these images to extract relevant health metrics, such as vital signs, skin conditions, or wound status. The processed data, along with the raw images, is then transmitted to a telemedical monitoring system for further analysis. The monitoring system generates medical information, such as diagnostic insights or treatment recommendations, which is sent back to the portable device for review by healthcare providers or the patient. This bidirectional communication ensures real-time monitoring and timely medical intervention. The system may also include features like data encryption, user authentication, and integration with electronic health records to enhance security and interoperability. The invention improves remote patient care by enabling seamless data exchange between portable devices and centralized systems, facilitating early detection of health issues and reducing the need for in-person visits.
20. The method of claim 19 , wherein the telemedical device transmits the images to the telemedical monitoring system, and the telemedical monitoring system analyzes the images to determine health data using a health monitoring application.
This invention relates to telemedical systems for remote health monitoring. The system includes a telemedical device that captures images of a patient, such as medical images or video, and transmits them to a telemedical monitoring system. The monitoring system processes these images using a health monitoring application to extract health data, such as vital signs, skin conditions, or other physiological metrics. The telemedical device may include imaging components like cameras or sensors to collect the necessary data. The monitoring system analyzes the transmitted images to derive health insights, which can be used for remote diagnosis, treatment monitoring, or preventive care. This approach enables healthcare providers to assess patient health without in-person visits, improving accessibility and efficiency in medical care. The system may also include additional features like data storage, user interfaces for healthcare professionals, and alerts for abnormal health readings. The invention aims to enhance remote patient monitoring by leveraging image-based analysis for accurate and timely health assessments.
Unknown
January 5, 2021
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